Blog: Meet a Researcher

Andriy Bilichak is a research scientist and cereal biotechnology program lead at Agriculture Agri-Food Canada (AAFC)’s Morden Research and Development Centre (RDC). Bilichak completed his PhD in plant biotechnology at the University of Lethbridge and his postdoctoral fellowship at the Lethbridge RDC.

He was raised in Ukraine and now lives in Winkler, MB, with his wife Nina, who is currently on maternity leave with their baby girl, their son Mark, and his mother.

Where did you work before the Morden RDC?

After my postdoc at the Lethbridge RDC, I worked on a collaborative project with Dow AgroSciences, now Corteva, developing methods for non-transgenic gene editing in wheat. After that, I worked for a startup biotech company where I looked into different genotypes of high-THC and high-CBD lines of cannabis and how to improve pathogen resistance. Then I eventually began my position at the Morden RDC.

What got you interested in this area of work?

I’ve been working on gene editing from the beginning. My PhD was in plant transformation/biotechnology, so it was a logical next step for me to move into gene editing. I enjoy working with like-minded people and thinking and living in science and working towards new discoveries.

Tell us a bit about what you’re working on at the Morden RDC.

My program at the Morden RDC focuses on gene editing and functional genomics, which is the characterization of novel genes. We are trying to identify genes and their role in pathogen response or abiotic stress, for example. The original program was focused on spring wheat, but we’ve added winter wheat and plan to add barley as well.

Since we work on biotech and transformation, the major part of our program is gene editing. We use CRISPR/Cas9 gene editing tools to dissect the contribution of different genes, either in pathogen response like leaf rust or abiotic stress. We also collaborate extensively with other groups that look into other traits like pre-harvest sprouting, for example.

The overall vision for the program is to adopt gene editing for targeted modification in elite Canadian cultivars. We are trying to discover genes that are involved in tissue culture response in wheat, as we want to apply this knowledge to introduce gene editing into elite Canadian cultivars.

The goal would be, for example, if the breeder comes to us and says, “I have this great variety with all these nice agronomic qualities, but it lacks this one. Can you edit or modify this trait for me through genetics/gene editing?” we would be able to quickly do that. The transformation protocol usually takes four months from the time we put the embryo in tissue culture until the time we regenerate the seedling, and it takes another four or so months for the plant to grow. So, let’s say we can regenerate a particular mutation or edit the target gene within a year. This improves line and delivery to the breeder.

In terms of peptides work, the Application of antimicrobial peptides to increase cereal crops resistance to fungal pathogens project was funded by Manitoba Crop Alliance and Western Grains Research Foundation. Through this research, our lab student screened a library of 20 peptides that were selected from literature that had indications of potential antifungal properties that were never tested against leaf rust.

She found some peptides had much stronger antifungal activity compared to others. We then took those peptides and checked the growth curve to try to find out the best concentration for them. Then, when we sprayed those peptides on the leaf surface before infection with leaf rust, we discovered we could suppress the first infection on the susceptible cultivars by just foliar application of those peptides.

We also discovered endogenous wheat-encoded novel peptides that could potentially be used as a fungicide. We are currently working toward engineering these peptides in the wheat genome through gene editing applications. In this way, wheat expressing the anti-fungal peptides in leaves can potentially become more resistant to rust infection. Eventually, these edited non-transgenic lines can be tested in the field for pathogen resistance.

What can you say about the value of farmers providing funding and support to your organization?

We highly appreciate funding from farmers that allows us to do discovery work and adoption of new biotechnology tools for wheat improvement. Most of the work we do is upstream science that eventually can find its application in the farmer’s fields.

Biotechnology tools become very important in adapting wheat genetics to better cope with climate change and unpredictable weather conditions during the growing season. The gene-edited crops become widely accepted worldwide and through funding of biotechnology programs like ours, Canadian farmers can remain competitive on the international markets through growing of the improved cultivars generated using novel breeding tools.   

How does that farmer funding and support directly benefit farmers?

Although we work in upstream science, in every project we apply for we indicate how that work will benefit farmers in the long term and how we can transition it from the lab into the field. We collaborate extensively with other groups (like breeders) on the transition into the field.

In terms of gene editing, we focus on traits that are important to farmers like increased yields or reduced pesticide applications. We are thinking about how to reduce fungicide applications, for example, by looking into alternative means to control pathogens (like peptides). Every research project is centred around the objective of benefitting farmers and agriculture.

How do you spend your time outside of work?

I enjoy sports. I like playing soccer, especially with my son because he is really into soccer. I used to play table tennis and I hope to renew that passion again.

What is the best part about your job?

It’s always interesting for me to go to the lab where we apply biotechnology tools for trait improvement in wheat. Whether we increase the transformation or editing efficiency, whether we have a particular phenotype that we are interested in, and how, in general, gene editing can contribute to the development of new varieties and how it can help in breeding programs. In my opinion, now is a very exciting time to be in plant biotech.

What is your favourite podcast right now?

I enjoy listening to different science podcasts, especially ones that tell odd stories about scientific discoveries and how they came into the world. Two examples are Unsung Science and Disappearing Spoon. They are both very interesting.

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Alankrita Goswami is an assistant professor in the Department of Agricultural Economics and Agribusiness at the University of Manitoba (U of M). She holds a master’s in rural management, an engineering degree in biotechnology and a PhD in agricultural and applied economics from the University of Georgia. Goswami lives in Winnipeg and works at the U of M Fort Garry campus.

Where did you work before the U of M?

I was working as a PhD student for four years at the University of Georgia in the United States, and then I came to Canada to work at the U of M.

What got you interested in this area of work?

Economics always interested me. I was doing my engineering degree in biotechnology back in India and in my third year I wanted to be in a workspace where I could somehow contribute to the community. There is a tradition of teaching in my family, both my mother and grandmother are teachers and many of my aunts are teachers.

With an original interest in contributing to the rural community in India, I went for an MBA with a specialization in rural management. It was a very structured program where I had three internship components and got to live and work in different villages.

This shifted my areas of focus from biotech to rural management, and then I started as a pre-doc at the International Water Management Institute-TATA Policy program in India. This got me into agricultural economics as I began looking into irrigation and how it contributes to the ag economy back in India. Then the transition was complete – I began my PhD after that.

Tell us a bit about what you’re working on at the U of M.

In terms of teaching, last semester I taught the agricultural marketing course and this semester I am teaching applied econometrics.

My PhD dissertation chapters were on U.S. agricultural futures markets. My research was mostly geared towards looking at futures markets as a risk management tool for farmers and their effectiveness, especially during anomalies such as what we call non-convergence in the markets. This is when the futures markets are not aligning with the cash markets and dissecting what the possible reason(s) could be.

Futures markets, by design, incorporate not just current supply-related information in prices, but also related to future supplies. In a current project, I am looking at the interconnectedness of markets such as Canadian canola and U.S. soybean oil in the context of anticipation of future supply shocks.

We are studying the transmission of the impacts of expectations of future supply shocks from one market to the other. This will help us understand how these markets are interconnected with each other through the market expectations channel. By conducting such research exercises we intend to distill information on what future supply disruptions mean in context of farmers’ risk management strategies involving futures markets. We also intend to extend this work to include impact of anticipation of future supply disruptions in livestock markets.

Another area I’ve started into is microstructure of agricultural futures markets. At the microstructure level of agricultural markets, we aim to study the traits of the market at a higher time resolution (such as nanoseconds). Understanding market activity at such a micro level can be key to distilling information on aggregate trading behaviour of ag-market participants. Such information can be of utility to users of ag futures, such as farmers, ag businesses, etc. By studying micro-level details of ag-futures markets, I will aim to translate learnings from this work into information of practical utility for the users through a series of technical bulletins.

What can you say about the value of farmers providing funding and support to your organization?

Such funding is of great help to researchers like me who want to contribute to the agricultural community through our work. It provides the opportunity to leverage resources to study issues plaguing the agrarian landscape and come up with solutions to such issues.

How does that farmer funding and support directly benefit farmers?

The extension-centric work in the coming months will be very important. Technical bulletins aimed at the farming community for example, be it the work on looking at anticipations of supply shocks on ag markets or be it this very aspect of looking at the market at a very micro level, I want to translate the information generated from my work into practical utility for farmers.

 How do you spend your time outside of work?

I have always been a voracious reader. I like running and I am hoping to get back into painting this winter. I like to go back to a memory, think of something and paint it. 

What is the best part about your job?

I love research. I like to inspect things and dissect social issues that might be impacting the agricultural economy, and I like engaging with farming communities. Agricultural policy also interests me and my job is a mix of everything I love, including teaching.

What is your favourite food or meal to cook?

I love Italian food. My mother is a very good cook and she would always be preparing it in so much detail, and when you watch a person prepare food with that much love and attention to detail, it gives you the feeling they are creating something important. She really got me hooked on Italian food.

Follow @alankrita10 on X (formerly Twitter).

Stephen Crittenden is a research scientist in soil health and nutrient management, as well as lead of the Soil, Water, and Crop Production Science team, at Agriculture and Agri-Food Canada’s (AAFC) Brandon Research and Development Centre (RDC). He grew up in Collingwood, ON, and has worked in several countries, gaining a unique understanding of agricultural practices around the world.

Crittenden completed his master’s at the University of Guelph and his post-doctoral work at Cornell University in New York State. He spent time working in Rome and France before completing his PhD at Wageningen University in the Netherlands, where he worked on tillage systems and soil quality.

Crittenden now calls Brandon home, where he lives with his wife and two kids.

What is the best part about your job?

I take being a public servant seriously. Whether it’s communicating with media, commodity groups or farmers, or trying to produce science-based information, it’s incredibly gratifying. That is where I see my role, trying to produce science-based information that will benefit Canadian farmers.

What got you interested in this area of work?

Soil health is a topic that came up over and over from farmers in Manitoba. People wanted to know what soil health information is important and what is relevant for their farm, how they can measure indicators themselves or, if working with a commercial lab, what indicators would be most relevant.

I really got interested in focusing on soil health here in Manitoba because that’s what I kept hearing was important to farmers.

Tell us a bit about what you’re working on at the Brandon RDC.

I’m a scientist, but I’m also lead of the Soil, Water, and Crop Production team. A big part of my role is facilitating the work of the team as a whole. We have hydrology and agrometeorology, we have some hydrological modelers, soil crop modeling, agronomy and economics.

We have a number of technicians working and running trials, taking samples and collecting data in the field, and we have technical staff in the labs working on plant and soil nutrient analysis, enabling us to track nutrients in all of these disciplines.

As a scientist, my role is to ask those fundamental questions that are relevant to Canadian farmers and to try to answer them in a science-based way. This could be through writing funding proposals, data analysis or working on reports or manuscripts.

In a project funded by Manitoba Crop Alliance (Manitoba Corn Growers Association prior to the amalgamation) and Manitoba Pulse and Soybean Growers, we looked at the utility of soil health indicators for yield and protein in corn, soybeans and canola. We are currently working on the analysis, but the tried-and-true indicators (spring soil nitrate tests, soil organic matter or phosphate tests) are still proving to be quite useful to differentiate between management systems and correlate relatively well with yield and protein.

What can you say about the value of farmers providing funding and support to your organization?

It is pivotal. I heard from farmers that soil health was one of the priorities they felt they wanted to better understand, which has directed the focus of my work. Working with the commodity groups gives us confirmation that the questions we are asking and what we are trying to accomplish is beneficial for farmers.

How does that farmer funding and support directly benefit farmers?

Soil health can provide a good foundation, literally and figuratively, for good crop performance. If a farmer is going to invest in soil testing, the work we are doing can help you pick which soil health indicators are relevant for your crop yield and protein.

An old adage that used to hang on a professor’s door at the University of Guelph said, “Soil test, don’t guess.” You can get a lot of information relatively easily with a soil test or two.

How do you spend your time outside of work?

Chasing after my two kids!

What gets you excited about work?

One thing I will mention is social media. I love reading all the posts about planting or harvest progress, current issues or other concerns relating to my work – from farmers and commodity groups to ag media. It’s not just about me trying to share what I’m doing, it’s very much about learning what else is going on in the industry and, indeed, trying to focus my work on what would be relevant for farmers. I have found it to be a beneficial tool.

What are you excited about for the future of agriculture?

Trying to provide updated and useful information farmers can base their decisions on. One new method we are working on is called soil spectroscopy. It’s infrared spectroscopy: you basically shine infrared light on soil and can get a lot of information about carbon, texture and salinity. We are trying to expand the number of properties we can predict with spectroscopy.

All our work is with the aim of trying to better our soil testing methods and regimes, and the information we provide to farmers. In a nutshell, that’s what gets me excited about the future – updating the fertility aspect of it, developing new indicators or understanding indicators that are out there, or trying to find new methods to do soil testing.

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Aaron Beattie completed his undergraduate science degree at the University of Waterloo, his master’s in plant breeding at the University of Guelph and his PhD in plant pathology at the University of Saskatchewan. He grew up in Saskatchewan and currently lives in Saskatoon.

Where did you work before the Crop Development Centre (CDC)?

I worked at Southern Seed Technology, a winter nursery in New Zealand for about a year. This is the nursery we collaborate with and send our barley to in the winter. Prior to that, I was working in the dry bean breeding program at the University of Guelph.

What got you interested in this area of work?

My background from my undergrad was biology and genetics. When I finished my undergrad, I knew I liked genetics, but I wanted to do something that wasn’t pure research. That’s where plant breeding made sense because it leans heavily on genetics and various aspects of biology, but it has that applied piece as well. That helped me make my decision to go to the University of Guelph. My thesis was focused on plant breeding and I continued in that area afterwards in my work. I came back to Saskatchewan for school, and eventually landed my current job.

Tell us a bit about what you’re working on at the CDC.

The summer is busy between running tours for the barley and oat programs for farmers and funders, doing selections in the field and keeping my crew organized leading into harvest. Teaching is a big part of my winter, as well as evaluating data we collect from the fields in the summer and organizing our winter work, such as the quality and molecular data. I’ve got four graduate students working at the moment, and we have a lot of industry interactions.

In terms of research, one project we are working on, Phenotyping and Genomic selection for improved barley Deoxynivalenol (DON) resistance, is funded by Manitoba Crop Alliance, SaskBarley, Alberta Grains and Western Grains Research Foundation. This project deals with trying to get a better handle on fusarium resistance in barley, which the barley research community has made a lot of good progress towards over the past 20 years.

This project aims to develop genomic tools to help me select for better resistance. We’re working closely with James Tucker at Agriculture and Agri-Food Canada in Brandon. We send him a few thousand lines every year and he evaluates them for DON and fusarium resistance. We are also genotyping these lines to create prediction models for fusarium resistance.

Eventually, we hope to develop a way to select for better DON resistance using genomic tools early on in our breeding program, and evaluate only those lines that we think have better resistance in the nursery as a means to confirm the better resistance.

What can you say about the value of farmers providing funding and support to your organization?

The work we do as breeders spans fairly large periods of time. You’ve likely heard that it is an eight-to-10-year process to go from a cross to moving forward a variety. Funding from farmers is key to our program, as well as to other barley breeding programs in Western Canada because it allows us to make long-term plans. It allows us to test more, which means we have a higher probability of producing something better in the future.

How does that farmer funding and support directly benefit farmers?

It allows farmers to have a voice in terms of what we do, which is critical. Hearing new ideas from farmers based on things they are seeing in the field is invaluable. We try to listen to the whole value chain, and farmers are at the start of that chain. They need to be engaged in the process because we want them to see value in our work and keep barley in their rotation.

How do you spend your time outside of work?

I coach and play hockey.

What is the best part about your job?

I like the idea that what I do is practical to people. The idea that you can take research and translate it into something that has value to other people is rewarding. Also, it’s a very nice community to work in. There are a lot of very engaged and enthusiastic people in agriculture and a lot of innovation. People are willing to incorporate new ideas – I really like that about the industry.

What gets you most excited about your work?

Interacting with people across quite a wide range of disciplines; researchers all the way to the end users and farmers. Having that diversity of viewpoints is quite interesting, and then trying to figure out how to make it all come together into a variety. It’s fun to go through that process and interact along the way with people influencing your end goals.

Follow @CDC_USask on Twitter.

Dilantha Fernando is a professor in the Department of Plant Science at the University of Manitoba (UM) and dean of studies at UM’s St. Paul’s College. Dilantha was born in Sri Lanka where he completed a bachelor of science in botany with a chemistry minor, as well as a master’s in microbiology. He then moved to the U.S. and completed his PhD in plant pathology at Oregon State University.

Fernando has been recognized with several prestigious awards for his work in research and teaching. He is an editor of six journals, including two where he is editor in chief. He lives in Winnipeg with his wife, who is also a researcher, and the two youngest of their three sons.

Where did you work before UM?

I have been very fortunate to have had work opportunities in many places. After completing my PhD, I held a postdoctoral position at the International Rice Research Institute in the Philippines, where I worked on rice diseases. Next, I was presented the opportunity to come to McGill University as a postdoctoral fellow, which brought me back to North America.

After McGill, I held postdoctoral positions with the University of Arizona, Agriculture and Agri-Food Canada’s Ottawa Research and Development Centre (where I first worked on fusarium head blight) and Michigan State University. I then accepted a full-time position with UM.

What got you interested in this area of work?

While doing a degree in botany, one must have that moment of realization: “This is what I want to do.” I was not going to be a top scientist looking at plants, I was more fascinated by what I could not see – the bacteria, the viruses, the fungi. My microbiology research was entirely on bacterial microbiology. I became fascinated with how a single cell of a bacterium can do so much – good or bad. That’s where it all started, with my background and fascination with microbiology.

Tell us a bit about what you’re working on at UM.

I begin my days very early. I generally wake up around 5 a.m. to do any editing work and catch up on emails with a nice cup of Sri Lankan tea, before sending the kids off to school. In my office which is beside both of my labs, I spend time with my graduate students, postdoctoral fellows, working on research papers, developing new ideas and writing proposals and reports, before heading to St. Paul’s for the afternoon to do administrative work.

I teach two courses: plant disease management in the fall and the epidemiology of plant diseases in the winter. I also work with graduate and post-graduate students in the lab. This is one of the best parts of my job, mentoring students through research.

In research, I focus mostly on canola and cereal diseases. I have been working on Fusarium in wheat and barley, and training post docs in this area. The population structure of Fusarium pathogens of small grain cereals, their distribution and relationship to mycotoxins research is funded by Manitoba Crop Alliance, Western Grains Research Foundation, Alberta Wheat Commission, Brewing and Malting Barley Research Institute, SaskBarley and Sask Wheat.

In this research we are looking at the western Canadian cline, or the way the pathogens are moving, and how that is impacting farmers. Our studies are also looking at how different chemotypes can impact the cereals.

Building on this opportunity, we have received thousands of isolates from different sources, including scientists in the east and in Ontario, enabling us to do several studies and make comparisons, which is very important. With these isolates, we are starting to see differences and to understand why a certain area might be getting less or more disease pressure. One of the key questions we are interested in is to understand why the 3A-DON chemotype is displacing the 15A-DON chemotype.

What can you say about the value of farmers providing funding and support to your organization?

The funding farmers give to support any research is so important. If you have good ideas and you want to help the world, to execute those ideas you need funding. It enables us to train highly qualified personnel and to answer farmers’ key questions that can only be answered through doing the research.

In our lab, we as researchers have a moral obligation to provide applicable results back to farmers.

How does that farmer funding and support directly benefit farmers?

The direct benefit a farmer would see in the type of research I do on Fusarium is increased yields and decreased loss of quality. Because of that, farmers will gain a lot of opportunity at the trade level.

Safeguarding their fields is another direct benefit, because if they know how to reduce the inoculum of any fungus, any pathogen, they are going to have a better opportunity the next season with less inoculum of the pathogen in their fields.

How do you spend your time outside of work?

I have a very busy lifestyle. My biggest hobby seems to be family and keeping in touch with friends, which has been a pleasure, especially when I am travelling. When I travel overseas, I always have somebody to meet up with, and some of those friendships have continued for more than 40 years.

What are you excited about for the future of agriculture?

This is a discussion we have at home because we feel very proud to work in agriculture. There are industries that come and go or change, but everyone in the world has to eat. Our land is not going to grow, but the population is.

So, we have to find new techniques to improve production, with less diseases, higher yields and high quality. I think agriculture is going to be one of the most desired industries also from a work standpoint where there will be more opportunities for people trained in agriculture to find jobs.

Who or what inspires you?

I give the highest credit to my parents. Both my brother and I were interested in playing sports, but my parents told us, “If you want to play sports, you have to be really good to be someone in the sports world. If you have an education, you can go a long way.”

I loved doing science and up until my PhD I had never worked in agriculture, but that opened up a new area that got me excited.

Connect with Dilantha Fernando on LinkedIn.

Gurcharn Singh Brar grew up in Punjab, India’s “breadbasket,” where he completed his B.Sc. in agriculture (honours in crop protection) at Punjab Agricultural University. In 2012, he moved to Canada’s breadbasket, Saskatchewan, and completed his M.Sc. and PhD in wheat genetics and breeding at the University of Saskatchewan.

Currently, he is an assistant professor of plant science in the Faculty of Land and Food Systems at the University of British Columbia (UBC) in Vancouver, and lives in Surrey with his wife.

Where did you work before UBC?

I started my job at UBC in January 2020, and before that I was working at the Crop Development Centre (CDC) of the University of Saskatchewan where I did my M.Sc. and PhD. For a short time after I completed my PhD, I was working at the CDC as a research officer in wheat breeding and genetics.

What got you interested in this area of work?

I often say I am in a long-term relationship with wheat. I’ve been around wheat fields since I was a child – my dad grows wheat and rice on his farm. When I was in high school, I would visit the wheat fields and loved wheat as a plant. When I started my bachelor’s degree, I used to interact and look at wheat from a different perspective. In my third year, I saw stripe rust in our field and decided I would focus my work on wheat rusts.

Tell us a bit about what you’re working on at UBC.

My research program is split between wheat and barley. I work closely with public wheat and barley breeders in Western Canada. The major focus of my research on wheat and barley is breeding for disease resistance.

We focus on the five priority diseases, and in my program, we’ve established uniform disease screening nurseries, mainly for Fusarium Head Blight (FHB) and stripe rust, where wheat and barley breeders send us their material, we plant it and provide them with data. We also started working on bacterial leaf streak (BLS) of wheat.

For barley, my main focus is on FHB, net blotch, scald and stripe rust. Recently, we started working on BLS of barley, which is emerging as a new disease, especially in southern Alberta and Manitoba.

For wheat, pre-breeding is where we do a lot with genetics. The Mapping novel FHB and stripe rust resistance genes from Watkins landraces project – funded by Manitoba Crop Alliance, Alberta Wheat Commission, Saskatchewan Wheat Development Commission and the Saskatchewan Ministry of Agriculture – will feed into our pre-breeding research pipeline.

Our colleagues genotyped a panel of Watkins landraces (a few thousand lines) and shortlisted a core panel of about 300 lines. Of those 300 lines, which we screened with stripe rust and FHB, we have identified close to 12 which have a very high level of resistance to FHB and deoxynivalenol (vomitoxin) accumulation. Of these 12, there are two which are highly resistant to FHB and stripe rust.

We have two graduate students working on this project, aiming to identify the genes that are making these landraces resistant to both diseases, and we are very close to finishing this research. The goal is to develop breeder-friendly markers with the aim to transfer these resistant genes into elite CWRS wheat lines that breeders in Western Canada can use.

What can you say about the value of farmers providing funding and support to your organization?

We can’t do the research if we don’t have the funding from producer groups. I really appreciate the funding and support from the deepest core of my heart. One thing I learned from my mentors and I keep in mind is to make sure my research goes back to help the farmers. If not in the short run, in the long run it should pay back.

I think the Prairie producer groups are doing a commendable job. For me, the biggest positive is although I am sitting on a UBC campus far from Manitoba, they understand my research has value, too. They don’t limit funding to the provincial boundaries, which I think is a very visionary approach.

How does that farmer funding and support directly benefit farmers?

If we develop a variety, for example, that is a direct benefit to the farmer because it gives them another option. The other research we are doing, like genetics and pre-breeding, also has benefits. Suppose we identify novel genes for resistance to FHB from these Watkins Landraces. We transfer that resistance to some CWRS wheat lines and develop markers that we give to breeders. They can use that resistance in their future varieties.

When these varieties are released, if they have improved resistance over today’s varieties, there is potential to minimize and possibly eliminate fungicide reliance. Or, for example, in some years you have to spray twice, maybe we can limit it to one application. That will save money and a lot of effort. It will also improve the grade of the crop, and grade improvement means more money in pocket.

How do you spend your time outside of work?

I am a workaholic. I really love my work, but I like to spend time with friends whenever I get the chance. I also like to read Punjabi literature – fiction, poetry, etc.

Who or what inspires you?

 My father is a big inspiration. He worked tirelessly in the field and I don’t think I can work as much as he did at my age, or even now. For wheat breeding, my PhD supervisor Pierre Hucl is my biggest inspiration. He is hardworking and very passionate about wheat – I think he is crazy for wheat, but in a good way!

Follow @gurcharn_brar on Twitter.

Derek Brewin is professor and head of the Department of Agribusiness and Agricultural Economics at the University of Manitoba (U of M). He earned his B.Sc. at the University of Alberta, followed by an M.Sc. at the University of Saskatchewan (USask) and PhD at Penn State University. Brewin has worked at U of M since 2003 and lives in Winnipeg, dangerously close to the best ice cream in the city. 

Where did you work before U of M?

I started this job after I finished my PhD, and before that I worked as a research associate at USask in the Strategic Development Fund. Prior to that I worked at the Canadian Wheat Board as a corporate advisor, a policy advisor for Agriculture and Agri-Food Canada (AAFC) and a lender for Farm Credit Canada (FCC). 

What got you interested in this area of work? 

There are so many opportunities in agriculture. Once I got the B.Sc., I kept getting wonderful offers. I was fortunate that FCC needed somebody like me when I came out of my program. Working and learning about how FCC forecasted prices led me to go back for my M.Sc. I thought I would return to work with FCC, but when I finished my degree there was an opportunity at the Prairie Farm Rehabilitation Administration (PFRA) in transportation policy, and once I got into policy I’ve stayed interested. 

Tell us a bit about what you’re working on at U of M.

I teach an agriculture marketing course where we evaluate the ag supply chain from the producer to the consumer. We know consumers are the main drivers, but ag supply chains are complex. To be able to work out the different steps in the beef, grain and oilseeds supply chain, or livestock supply chains, requires understanding of a lot of firms and agents.

When you’re thinking about the whole supply chain, the incentive to grow at the beginning, or the farmer’s bottom line, is a big part of why there is supply at all. This is something I’m always watching as part of my classes. I ask my students to think about what the price of canola is in Manitoba, for example, and how that factors into the price of the bottle of oil in a supermarket. Thinking about how those prices are all connected and how they cover the costs of processing to transporting helps us understand the market better. 

The Research to explore socio-economic impacts of disruptions on Agri-food supply chains and markets project, funded by Manitoba Crop Alliance, is about building capacity in this area, as there is growing demand for it. 

COVID-19 had a huge impact on food markets and in the food supply chains, there was a large shift from people eating out to buying retail and feeding themselves. That was definitely a big disruptor. The barriers put up during the protests of the grain supply chain at the beginning of 2020 also slowed down some grain transportation and led to backlogs in terms of movement. These are some of the areas we focus on for this research. Learning about current and historic disruptions, like the Great Canadian Grain Logistics Crisis of 2013-14, is what I teach to my students and what drives my research. 

What can you say about the value of farmers providing funding and support to your organization?

Some of the evidence on public sector investment in agriculture shows that it pays off 40 to 1. I’ve done some research on innovation systems and I feel really good in terms of the economics of it. It can be a really slow process; sometimes it’s 40 years between when something is invented and when it has an impact on yield. I think, in the long run, farmers are going to be a lot better off for the research investments made through the check-offs. Economists need to keep checking that return on research as well as contribute in their own areas, especially in training new analysts. 

How does that farmer funding and support directly benefit farmers? 

For my work, we are looking backwards to learn. Learning more about these big interruptions through a few projects with Alankrita Goswami, we are collecting evidence from disruptions like BSE, COVID-19 and the transportation breakdowns in 2013-14. The more we understand these, we can work to determine whether or not current policy could help us get through a similar interruption. For us as economists, it’s a good thing to make sure the incentives have stayed in the right place to invest and monitor these systems in order to keep our supply chains functioning.

How do you spend your time outside of work? 

I enjoy reading about economics and international economics, as well as history and historical fiction; I really enjoy books by James Michener. I like playing old-timer hockey, curling and occasionally camping. Every year I go on a pretty serious canoe trip, a tradition that began back during my master’s.

How do you celebrate agriculture?

The first thing that came to mind was working the calves at fall. Some of our own work was tough sledding with just my dad, brother and I. But sometimes we would tackle the calves as a community with friends from the bigger ranches and we had calf weaning/branding events. It was a real celebration of the year’s calf crop and everybody getting together in a very traditional way, one they were doing 200 years ago and are still doing today. For me, that is a special event and a way to celebrate agriculture. 

Who or what inspires you?

I’ve met some leaders in the agriculture sector, some students included, who really inspire me – some who have received awards of merit from the faculty here. These leaders come in to be celebrated and receive these awards, and we get to hear their stories and all about their great careers. It’s nice to hear how people have changed the Manitoba sector, and it’s really inspiring for our students.

Connect with Derek Brewin on LinkedIn.

Raju Datla is a senior scientist and program lead in resilient agriculture at the Global Institute for Food Security (GIFS), a partnership between Nutrien, the Government of Saskatchewan and the University of Saskatchewan (USask). Raju grew up in India and moved to Saskatoon, SK, in 1985. He took a research officer position as staff scientist with the National Research Council of Canada (NRC) in 1993. He holds a master’s degree in plant embryology and genetics, and a PhD in plant genetics and evolution. 

Where did you work before GIFS?

I worked at the NRC Saskatoon as a research officer in the Plant Biotechnology Institute. I was a principal research officer at NRC before I joined GIFS as a senior scientist in December 2019.

What got you interested in this area of work? 

It was through my research activities and their key discoveries from performing basic and foundational research in model crop plants. I saw opportunities to translate some of those findings into solutions for performance and productivity challenges in crops. That’s what interested me, translating expertise and discoveries into (maybe) a professional stream. Although it is a long process, you can make impactful contributions, especially working and collaborating with other experts. 

Tell us a bit about what you’re working on at GIFS.

The mission of GIFS is to work with partners to discover, develop and deliver innovative solutions for the production of globally sustainable food. With climate change being a major influencer on agriculture, one thing we are looking at in our research is water conservation and if we can make crops that are more adaptive or resilient to those changes. 

Another aspect we are looking at is increasing the efficient use of fertilizers by crops. Our research is focused on how to make plants more efficient users of nutrients, especially nitrogen and phosphate in Canada. 

To address and capture some of these challenging opportunities, we focused on identification and characterization of gene targets associated with resiliency and crop productivity traits. 

Our research findings led to the development of the “Targeting reproductive and spike traits for improving grain yields in wheat” project. We have identified opportunities in this program for discovery of new genes controlling spike developmental programs (characteristics) to improve the wheat grain yield potential. 

This project is funded by Manitoba Crop Alliance, Saskatchewan Wheat Development Commission and Alberta Wheat Commission. We are into the third year of this project and our current focus is on discovery and characterization of genes controlling the spike development, the major reproductive part of the wheat crop, and if we can increase its capacity. We are trying to determine if there is any flexibility and diversity available in the germplasm that we can use to increase the number of grains that can be produced in a spike. 

We have developed some candidate lines that can produce more grains, but these are at the early stages and are being controlled and studied in greenhouse conditions. 

Eventually, we will be able to identify molecular markers and the underpinning genes that control these spike traits. That is the pipeline for this research, to facilitate incorporation of the desirable spike traits conferring improved grain yields to develop advanced Canadian wheat breeding lines. 

We are connected with Canadian wheat breeders, as our discovery and characterization establishment progresses for capturing translational potential to the project’s research findings. 

What can you say about the value of farmers providing funding and support to your organization?

Farmers are giving us the funding to be able to do these types of research projects. This funding is helping us discover and develop outcomes that will benefit farmers. It enables us to explore challenging research questions. The continued support from farmers helps us identify what they see on the farm, what they are looking for and/or what challenges they may be facing. There is such a benefit from their knowledge, experiences and support. 

How does that farmer funding and support directly benefit farmers? 

In this particular project, we are dealing with wheat, a very important part of Canadian agriculture, both for its quality and recognition globally. If we can improve wheat yields, that could not only positively impact farmers’ returns, but it could directly impact Canadian agriculture. Farmers would benefit from yield-boosting gene technologies and improved productivity in this crop will positively impact global food security. 

How do you spend your time outside of work? 

I like to play sports – tennis is my favourite. 

What are you excited about for the future of your sector/agriculture?

We are living in very exciting times. There are technological advances happening across multiple disciplines, and they are happening very rapidly. There are more opportunities, but challenges continue to emerge. I think we will continue to get better at advanced technological and biological understanding, positioning us well to take on more challenging tasks to improve climate adaptive sustainable agriculture productivity. 

Meet a Researcher – Belay Ayele, professor in the Department of Plant Science, University of Manitoba

Belay Ayele grew up in Ethiopia and completed his educational training around the globe. He earned his master’s degree in seed physiology at Wageningen Agricultural University in the Netherlands and his PhD was focused on plant hormone physiology at the University of Alberta. He then moved to RIKEN Plant Science Center in Yokohama, Japan, as a postdoctoral fellow to enhance his background knowledge and training in plant hormones. After Japan, he completed a second postdoctoral training at Iowa State University, before joining the University of Manitoba (U of M) as a professor in the Department of Plant Science.

He currently lives in Winnipeg and enjoys watching sports, including soccer and tennis, in his spare time.

What got you interested in this area of work?

Everything starts from the seed. During my master’s studies, I was curious about seeds – in particular, seed physiology and how that affects the eventual productivity and quality of all crops. If we make the seeds better, can we have better yield? If so, how can we achieve this goal? That is where my curiosity started.

I am interested in plant hormones, plant-produced compounds that control every aspect of crop growth and developmental processes, one way or another.

Tell us a bit about what you’re working on at U of M.

My research here at the U of M funded by Manitoba Crop Alliance and other funding partners is mainly focused on two areas: pre-harvest sprouting (PHS) and lodging in wheat and barley. My research also investigates abiotic stresses in cereal crops.

There are around nine different forms of plant hormones. These compounds are produced in plants at a very small concentration, but they are critical, as they control a wide range of the crop’s growth and developmental processes, as well as its interaction with environment, which ultimately influence yield and quality. We are studying these plant hormones – mainly how to fine-tune their levels in crops by controlling their production and degradation. Fine tuning their levels is pivotal to enhance the productivity of crops and their performance under a variety of stress conditions, such as drought, excess moisture, salinity, heat, etc.

With respect to PHS, our study is focused on two of those plant hormones, as they are major regulators of seed dormancy and germination. They are called gibberellin and abscisic acid. Gibberellin enhances germination and abscisic acid promotes dormancy. The balance between these two hormones is the critical regulator for the seed to germinate/sprout under field conditions after maturity when there is rain or high humidity and cool temperatures.

As for lodging, when severe, it can cause up to 80 per cent yield loss. We are looking at questions like what makes the plant grow excessively/attain excessive plant height? How can we control that excessive growth/plant height? The main factor that controls plant height or stem elongation in plants and consequently causing lodging is gibberellin.

Using this knowledge, we are working on increasing the mechanical strength of the stem and inhibiting the excessive elongation of the internodes, especially the lower internode as lodging usually occurs around the lower internodes.

The main objective of this area of my research is to generate genes or molecular markers that can be used by breeders to facilitate the development of pre-harvest sprouting or lodging-resistant wheat varieties.

In addition to research, I teach crop physiology courses at both the graduate and undergraduate level. I provide research training to students who will become future scientists.

What can you say about the value of farmers providing funding and support to your organization?

This support is critical, as it advances our research and our discovery of solutions. Eventually, the results of our work will be used to mitigate some of the problems farmers are facing and will contribute to saving or maximizing their income. We are addressing problems and finding solutions to enhance the productivity of cereal crops on the farm.

Because of this funding, I can explore new knowledge, make new discoveries and develop new molecular tools or genomic tools that will help mitigate the problems that farmers are facing. At the same time, I train students who become our next generation of scientists and industry leaders in agriculture.

How does that farmer funding and support directly benefit farmers?

Our focus is to generate molecular or genomic tools that will help breeders speed up the development of new varieties that are resistant to pre-harvest sprouting, resistant to lodging or resistant to abiotic stress factors. Our work will have important contributions in providing farmers with more varietal choices.

How do you celebrate agriculture?

We celebrate in the classroom by teaching the students about plant hormones and their role in agriculture. That is part of the celebration for me: trying to share what I learn, what I do in my research and the results I generate from my research program. In addition, my students go and teach ag in the classroom at high schools and junior high schools, and we participate in farm tours and conferences to present our findings.

What are you excited about for the future of agriculture?

I think what is exciting is with the current advances in agricultural technologies like genome sequencing, we have more tools and resources available. Year to year, they are being updated and advanced, helping trim the time it takes to produce tangible results. So, I think the future of breeding and finding genomic and molecular tools will be faster than ever. The availability of advanced technologies and the resources generated by these technologies are exciting.